采用直流电压驱动的微型电液泵泵送液体

M. Tański, M. Kocik, Jerzy Mizeraczyk
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引用次数: 1

摘要

本文介绍了直流电压驱动的微型电液泵的设计和性能。EHD泵呈管状,内径0.5 mm,两个同心管电极。EHD泵由直流正高压(高达12 kV)供电。当施加高压时,观察工作液的净流量。以异丙醇(CH3)2CHOH为工作液进行泵送试验。流动方向为接地电极向高压电极流动。测量了EHD微泵产生的流量和压力。施加电压为12 kV时,流速最高可达0.5 ml/min。施加电压为6千伏时,最大测量压力为500帕。施加电压的进一步增加会导致工作液中产生气泡,进而导致泵送效率的降低。测量了微泵开式和闭式出口的电流电压特性。在电压为12 kV时,泵的最大输出电流为20µA。这相当于240兆瓦的功耗。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Liquid pumping by miniature electrohydrodynamic pump driven by DC voltage
In this paper the design and performance of the miniature electrohydrodynamic (EHD) pump driven by DC voltage is presented. The EHD pump had a pipe-like shape of the inner diameter of 0.5 mm with two concentric pipe electrodes. The EHD pump was powered by positive high DC voltage (up to 12 kV). When high voltage was applied the net flow of the working liquid was observed. Pumping tests were performed using isopropyl alcohol (CH3)2CHOH as working liquid. The direction of the flow was from the grounded electrode toward the HV electrode. The flow rate and pressure generated by the EHD micropump was measured. The highest flow rate of 0.5 ml/min was obtained for 12 kV of applied voltage. The maximum measured pressure was 500 Pa for applied voltage of 6 kV. Further increasing of the applied voltage led to the formation of gas bubbles in the working liquid and subsequently the decrease in the pumping efficiency. The current-voltage characteristics was measured for open and closed outlet of the micropump. The maximal current of 20 µA was measured for the applied voltage of 12 kV and open outlet of the pump. This corresponds to the power consumption of 240 mW.
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